Postbaccalaureate Studies
The Department of Mathematics offers courses in calculus, algebra, geometry, differential equations, linear algebra, topology, number theory, and knot theory.
Departmental Office: 410 Mathematics
212-854-2432
my@math.columbia.edu
Office Hours: Monday-Friday, 9 AM-5 PM
Director of Undergraduate Studies:
Panagiota Daskalopoulos
526 Mathematics
212-854-4756
pdaskalo@math.columbia.edu
Students should call 212-854-4097 for information on the placement exam.
A comprehensive mathematics reference library is situated on the main floor of the Mathematics building.
The systematic study of mathematics begins with one of the following: Calculus I, II, III, IV (Mathematics V1101, V1102, V1201, V1202); Honors mathematics A, B (Mathematics V1207, V1208). The calculus sequence is a standard course in differential and integral calculus; it is intended for students who need calculus primarily for its applications.
Students who have no previous experience with calculus or who do not feel able to start with a second course in it should begin with Calculus I. Students who are not adequately prepared for calculus are strongly advised to begin with Mathematics W1003.
The two-term honors mathematics sequence is designed for students with strong mathematical talent and motivation. Honors Math A-B is aimed at students with a strong grasp of one-variable calculus and a high degree of mathematican sophistication. It covers linear algebra as well as several-variables calculus, and prepares students for the more advanced courses offered by the department.
Students who wish to transfer from one division of calculus to another are allowed to do so beyond the date specified in the academic calendar. They are considered to be adjusting their level, not changing their programs, but they must make the change official through the Registrar.
Course scheduling is subject to change. Days, times, instructors, class locations, and call numbers are available on the Directory of Classes.
Fall course information begins posting to the Directory of Classes in February; Summer course information begins posting in March; Spring course information begins posting in June. For course information missing from the Directory of Classes after these general dates, please contact the department or program.
Click on course title to see course description and schedule.
For students who wish to study calculus but do not know analytic geometry.
Algebra review, graphs and functions, polynomial functions, rational
functions, conic sections, systems of equations in two variables,
exponential and logarithmic functions, trigonometric functions and
trigonometric identities, applications of trigonometry, sequences, series,
and limits.
The Help Room on the 3rd floor of Milbank Hall (Barnard College) is open
during the day, Monday through Friday, to students seeking individual help
from the instructors and teaching assistants. (SC)
Methods of integration, applications of the integral, Taylor's theorem,
infinite series. (SC)
Vectors in dimensions 2 and 3, complex numbers and the complex exponential
function with applications to differential equations, Cramer's rule,
vector-valued functions of one variable, scalar-valued functions of several
variables, partial derivatives, gradients, surfaces, optimization, the
method of Lagrange multipliers. (SC)
Introduction to understanding and writing mathematical proofs. Emphasis on
precise thinking and the presentation of mathematical results, both in oral
and in written form. Intended for students who are considering majoring in
mathematics but wish additional training.
Intended as an enrichment to the mathematics curriculum of the first two
years, this course introduces a variety of mathematical topics (such as
three dimensional geometry, probability, number theory) that are often not
discussed until later, and explains some current applications of
mathematics in the sciences, technology and economics.
Matrices, vector spaces, linear transformations, eigenvalues and
eigenvectors, canonical forms, applications. (SC)
Mathematical methods for economics. Quadratic forms, Hessian, implicit
functions. Convex sets, convex functions. Optimization, constrained
optimization, Kuhn-Tucker conditions. Elements of the calculus of
variations and optimal control. (SC)
A concrete introduction to abstract algebra. Topics in abstract algebra
used in cryptography and coding theory.
Equations of order one; systems of linear equations. Second-order
equations. Series solutions at regular and singular points. Boundary value
problems. Selected applications.
Local and global differential geometry of submanifolds of Euclidiean
3-space. Frenet formulas for curves. Various types of curvatures for curves
and surfaces and their relations. The Gauss-Bonnet theorem.
The subject matter is announced at the start of registration and is
different in each section. Each student prepares talks to be given to the
seminar, under the supervision of a faculty member or senior teaching
fellow.
For specially selected mathematics majors, the opportunity to write a
senior thesis on a problem in contemporary mathematics under the
supervision of a faculty member. .
The second term of this course may not be taken without the first.
Prerequisite: Math V1102-Math V1202 and MATH V2010, or the equivalent. Groups, homomorphisms,
rings, ideals, fields, polynomials, field extensions, Galois theory.
Algebraic number fields, unique factorization of ideals in the ring of
algebraic integers in the field into prime ideals. Dirichlet unit theorem,
finiteness of the class number, ramification. If time permits, p-adic
numbers and Dedekind zeta function.
Metric spaces, continuity, compactness, quotient spaces. The fundamental
group of topological space. Examples from knot theory and surfaces.
Covering spaces.
Real numbers, metric spaces, elements of general topology. Continuous and
differential functions. Implicit functions. Integration; change of
variables. Function spaces.
A theoretical introduction to analytic functions. Holomorphic functions,
harmonic functions, power series, Cauchy-Riemann equations, Cauchy's
integral formula, poles, Laurent series, residue theorem. Other topics as
time permits: elliptic functions, the gamma and zeta function, the Riemann
mapping theorem, Riemann surfaces, Nevanlinna theory.
The mathematics of finance, principally the problem of pricing of
derivative securities, developed using only calculus and basic probability.
Topics include mathematical models for financial instruments, Brownian
motion, normal and lognormal distributions, the BlackûScholes formula, and
binomial models.
This course will focus on quantum mechanics, paying attention to both the
underlying mathematical structures as well as their physical motivations
and consequences. It is meant for undergraduates with no previous formal
training in quantum theory. The measurement problem and issues of
non-locality will be stressed.
Special differential equations of order one. Linear differential equations
with constant and variable coefficients. Systems of such equations.
Transform and series solution techniques. Emphasis on applications.
For students who wish to study calculus but do not know analytic geometry.
Algebra review, graphs and functions, polynomial functions, rational
functions, conic sections, systems of equations in two variables,
exponential and logarithmic functions, trigonometric functions and
trigonometric identities, applications of trigonometry, sequences, series,
and limits.
The Help Room on the 3rd floor of Milbank Hall (Barnard College) is open
during the day, Monday through Friday, to students seeking individual help
from the instructors and teaching assistants. (SC)
Methods of integration, applications of the integral, Taylor's theorem,
infinite series. (SC)
Vectors in dimensions 2 and 3, complex numbers and the complex exponential
function with applications to differential equations, Cramer's rule,
vector-valued functions of one variable, scalar-valued functions of several
variables, partial derivatives, gradients, surfaces, optimization, the
method of Lagrange multipliers. (SC)
Introduction to understanding and writing mathematical proofs. Emphasis on
precise thinking and the presentation of mathematical results, both in oral
and in written form. Intended for students who are considering majoring in
mathematics but wish additional training.
Matrices, vector spaces, linear transformations, eigenvalues and
eigenvectors, canonical forms, applications. (SC)
Mathematical methods for economics. Quadratic forms, Hessian, implicit
functions. Convex sets, convex functions. Optimization, constrained
optimization, Kuhn-Tucker conditions. Elements of the calculus of
variations and optimal control. (SC)
Fundamental properties of the complex numbers, differentiability,
Cauchy-Riemann equations. Cauchy integral theorem. Taylor and Laurent
series, poles, and essential singularities. Residue theorem and conformal
mapping.(SC)
Congruences. Primitive roots. Quadratic residues. Contemporary
applications.
. Introduction to partial differential equations. First-order equations.
Linear second-order equations; separation of variables, solution by series
expansions. Boundary value problems.
Elementary discrete time methods for pricing financial instruments, such as
options. Notions of arbitrage, risk-neutral valuation, hedging,
term-structure of interest rates.
The subject matter is announced at the start of registration and is
different in each section. Each student prepares talks to be given to the
seminar, under the supervision of a faculty member or senior teaching
fellow.
For specially selected mathematics majors, the opportunity to write a
senior thesis on a problem in contemporary mathematics under the
supervision of a faculty member. .
Fourier series and integrals, discrete analogues, inversion and Poisson
summation formulae, convolution. Heisenberg uncertainty principle. Stress
on the application of Fourier analysis to a wide range of disciplines.
The second term of this course may not be taken without the first.
Prerequisite: Math V1102-Math V1202 and MATH V2010, or the equivalent. Groups, homomorphisms,
rings, ideals, fields, polynomials, field extensions, Galois theory.
The study of algebraic and geometric properties of knots in R^3, including
but not limited to knot projections and Reidemeister's theorm, Seifert
surfaces, braids, tangles, knot polynomials, fundamental group of knot
complements. Depending on time and student interest, we will discuss more
advanced topics like knot concordance, relationship to 3-manifold topology,
other algebraic knot invariants.
The study of topological spaces from algebraic properties, including the
essentials of homology and the fundamental group. The Brouwer fixed point
theorem. The homology of surfaces. Covering spaces.
Real numbers, metric spaces, elements of general topology. Continuous and
differential functions. Implicit functions. Integration; change of
variables. Function spaces.
The implicit function theorem. Concept of a differentiable manifold.
Tangent space and tangent bundle, vector fields, differentiable forms.
Stoke's theorem, tensors. Introduction to Lie groups.
This course will focus on quantum mechanics, paying attention to both the
underlying mathematical structures as well as their physical motivations
and consequences. It is meant for undergraduates with no previous formal
training in quantum theory. The measurement problem and issues of
non-locality will be stressed.
Special differential equations of order one. Linear differential equations
with constant and variable coefficients. Systems of such equations.
Transform and series solution techniques. Emphasis on applications.